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Article

Using Machine Learning to Compare the Information Needs and Interactions of Facebook: Taking Six Retail Brands as an Example

Department of Mass Communication, Tamkang University, Taipei 251, Taiwan
Information 2021, 12(12), 526; https://doi.org/10.3390/info12120526
Submission received: 15 November 2021 / Revised: 8 December 2021 / Accepted: 13 December 2021 / Published: 17 December 2021

Abstract

:
This study explores the interactive characteristics of the public, referencing existing data mining methods. This research attempts to develop a community data mining and integration technology to investigate the trends of global retail chain brands. Using social media mining and ensemble learning, it examines key image cues to highlight the various reasons motivating participation by fans. Further, it expands the discussion on image and marketing cues to explore how various social brands induce public participation and the evaluation of information efficiency. This study integrates random decision forests, extreme gradient boost, and adaboost for statistical verification. From 1 January 2011 to 31 December 2019, the studied brands published a total of 25,538 posts. The study combines community information and participation in its research framework. The samples are divided into three categories: retail food brand, retail home improvement brand, and retail warehouse club brand. This research draws on brand image and information cue theory to design the theoretical framework, and then uses behavior response factors for the theoretical integration. This study contributes a model that classifies brand community posts and mines related data to analyze public needs and preferences. More specifically, it proposes a framework with supervised and ensemble learning to classify information users′ behavioral characteristics.

1. Research Background

Social media has become an integral aspect of business strategies [1] and is changing how businesses interact with users [2,3,4]. Group admins can use social media to increase brand awareness and loyalty by building relationships with potential consumers [5] or by guiding them to participate in promotional events and share information [6]. Social media content to attract consumers has two primary objectives: enhance brand loyalty or affection through improvements in brand image, which is generally image driven, and encourage interactive behaviors through rewards or other marketing techniques. Users participate by liking or commenting on brand posts and by sharing brand content within their network of friends. Such engagement is considered an outcome of marketing simulation [7]. The number of likes and comments is representative of a post′s popularity. However, while more than 80% brands are actively using Facebook, almost 60% group admins reported they are yet to understand how posts and other information can be effectively used to attract consumers [8]. Given the lack of key information analysis, a majority of group admins tend to passively imitate their competitors. Identifying the right solution for various individual brands is not possible.
Although scholars have examined the impact of social media on brands, their research insufficiently discusses the key factors and characteristics of brand messaging in general and the effective communication of social information in particular [9]. Therefore, this study analyzes social media content on the fan pages of global brands and compares the number of likes, comments, and shares for posts by popular brands. The objective is to examine the characteristics of posts that demonstrate exceptional business interaction efficiency, observe correlations between content and user behavior, and suggest effective strategies to manage social media content [10]. Brands must adopt convincing approaches when using online communities to interact with the public [11]. Understanding participation patterns is a critical aspect of brand strategy. However, key information analyses on the topic are lacking. Studies have explored crowd intention [12] and conducted interactive strength tests [11]. By contrast, this research focuses on cues prediction, analyzes users’ interaction intensity and participation response to image and marketing cues, and explores message functions and satisfaction provided by a brand from an information perspective [13]. The findings will serve as a reference for future commercial communities pursuing content improvements and increased public interactions.
The rise of e-commerce in recent years has significantly impacted the sales ecology of the physical retail industry. The Internet has pushed the physical retail industry to re-evaluate its positioning to, for example, attract public attention by building brand communities, thereby actively grasping consumer behaviors and stimulating consumption opportunities. Therefore, this study selects affordable brands listed in the Fortune Global 500 and affordable retail and chain stores that rank among the world′s top 100 to analyze their approach toward building brand trust through social media content. The brands include Home Depot, Lowe’s Home Improvement, Starbucks, KFC, Walmart, and Costco. The model measures three major behaviors, likes, comments, and shares, to distinguish between post content such as brand image and marketing promotions. In addition to theoretically supporting social media information [14,15], the model can be used to observe specific brand posts and interaction patterns as well as predict and suggest social media information through an AI analysis.
More specifically, this study explores the interactive characteristics of the public by conducting content and preference analyses. It examines publicly accessible community data and compares competitors’ strengths and weaknesses to develop a more detailed community-based strategy [16]. Data mining is a popular tool when brand and enterprise trend analyses involve large amounts of community data. Traditional data mining focuses on textual data obtained from within an organization. However, data analyses that are conducted from the outside [17] and not based on a single brand [18] are becoming increasingly important. Therefore, referencing existing data mining methods, this research attempts to develop a community data mining and integration technology to investigate the trends of globally renowned brands. Artificial intelligence (AI) can help identify the diverse operating characteristics of communities. Existing AI research at the community level mainly performs network analyses and automatic classifications of the predictive behaviors of text types [19]. Considering the abovementioned technical characteristics, this study analyzes brand community content to interactively examine and predict brand content trends by exploring structured community-level datasets, combining structured and unstructured data for web content mining, and using Facebook API functions for data collection and pre-processing.
This study focuses on three levels of community issues: information, interactive, and predictive. First, the research explores the similarities and differences in the operating characteristics of a brand’s fan pages. Broadly, it examines information on social media platforms and analyzes the content characteristics of images and texts posted by brands. In doing so, it attempts to understand if different brands have common information characteristics. The findings can help managers develop an effective forecasting system. Second, it examines the interactive relationship between information and public participation, information characteristics that are the most effective in improving content participation, and ways to promote behavioral participation on the basis of cognitive and emotional characteristics. Finally, it analyzes if big data and AI technology can predict content engagement (i.e., high or low) in posts by world-renowned brands and identify operating rules that are generally difficult for humans to judge.
The remainder of this paper is structured as follows. Section 2 discusses the relevant literature and theory on data mining and machine learning, brand image, and information cues. Section 3 presents this study′s hypotheses for fan page content to evaluate the influence of different cues on user behaviors. Section 4 explains the research methods adopted in this study. Section 5 details the results of the analyses. Section 6 highlights the theoretical and practical implications and offers recommendation for future research on the basis of this study′s limitations.

2. Literature Review

2.1. Facebook Data Mining

Facebook allows its users to post text, pictures, videos, and links and express themselves through likes, comments, shares, and reaction emojis [20]. The emotional and behavioral data generated by the posts are an effective basis to examine public behavior [21,22,23]. This study is conducted in line with Facebook′s terms of service to collect research-related material [24,25,26]. Engagement data for community posts are a critical metric [27]. The analysis uses Facebook′s Graph API to collect data [28,29] on post period, type, time, likes, shares, comments, and sentiments. Some other common estimation parameters include the number of reactions received. Facebook′s page engagement rate is calculated as the rate of posts, clicks, and comments. The study filters and standardizes data from original posts and then applies a two-step simplification process. The first step is to eliminate missing and false outliers and the second step is to filter and reduce data dimensionality to determine information features and then normalize all input categories [30]. As retweets, likes, shares, and comments represent the attractiveness of posts, this study uses supervised learning to create a decision model [31] and text and interactive data (e.g., sentiment, URL, and hashtags) for data analysis and model prediction. The model is used to identify information characteristics on the basis of community interactions and active participants.
Data mining is an exploration technique that relies on the digital features of texts [32]. The process involves data selection, data cleaning, text parsing, text filtering, and results’ interpretation [33]. Data mining helps determine the potential value of information and translates data into comprehensible and effective execution modes. Simply put, it aims to extract unknown knowledge characteristics from existing information. Common data mining techniques include data mining [34], web mining, and text mining [35]. Text mining entails editing, organizing, and analyzing expansive data and offers in-depth information on, for example, representative indicators [36]. Thus, numerous companies have employed community mining to define various services, interact with the public, analyze competition, and transform data into references for decision-making processes.
Moreover, studies have found that data mining simplifies procedures involving large-scale data [37]. The distributed vertical frequent mode, in particular, applies an array method [38] to process large amounts of data and target variables [39]. This mode can be used to optimize problems in the original groups of a data warehouse [40], and thus is widely applied in social network analyses to mine consistent characteristics from social interaction content [41]. Verifying data from actual chat records can help create a framework for a community interaction model to collect data from a software and calculate the relationship and minimum distance between each node [42]. The three most commonly used exploration techniques are mass data, clickstream, and classification analyses. Exploration processes also include data cleaning and pre-processing. An overthrow feature can be used when datasets are balanced and weighting does not produce noise after data mining; however, this feature does not apply until the dataset is balanced, which requires repeated weighting to eliminate noise. Community enhancement services are another approach to understand the benefits of such services, and thus improve users′ cloud experience. Therefore, this study adjusts the content to a community service enhancement model [43] and references information enhancement models available on various community websites to determine judgment strength. If the process reveals that the target variable (variable to be predicted) is a discrete value, a classification algorithm can be used to redefine the information (e.g., new vs. old or strong vs. weak).

2.2. Brand Image and Information Cues

Brand image considerably affects decision-making processes, which directly impacts consumers’ evaluation, behaviors, impressions, and feelings in relation to a brand [44,45]. Studies have further classified this impact into cognitive, knowledge, mental, and emotional dimensions. For example, while Zhang and Zhao (2014) evaluate consumers’ cognition, emotions, and intentions, they analyze the role of cognition and emotions in decision making. They draw on brand image theory to propose a framework to evaluate the relationship between cognition and emotions. In the context of brand image, cognition refers to knowledge about a brand including its characteristics or symbols; emotions denote individuals’ feelings toward a brand; and intentions are actions, behaviors, and reactions in the form of comments and participation [46]. Researchers use a hierarchical causal model to examine the influence of emotions and intentions on cognition and find that emotions affect the degree of cognition. Emotions have a critical impact irrespective of the type or form of information. Research on brand image and emotional response highlights the importance of perceived brand value and its impact on satisfaction and access intention. Tseng et al. (2015) present three stages of brand image formation. First is the induction and modification of an induced image, which can be classified as basic cognitive construction [47]. Second is the construction phase of cognitive transformation into emotions and intentions, which is a predominantly used image theory framework. The final stage is combining brand image and positioning.
A review of the existing literature on brand information highlights research on the concept of image, image composition, and image influence. In addition, scholars have examined the impact of image on decision-making processes and how image varies by brand and socio-cultural aspects. A further review of online text research on image cues reveals a major focus on the estimation of image cues [48,49,50], testing of image cue theory, and case analysis of image cues. These studies examine data from social media content and emotion surveys and, accordingly, suggest appropriate technologies and methods (Abrahams, Jiao, Fan, Wang, & Zhang, 2013). When using unstructured data, for example, keywords and high-frequency words serve as effective indicators [51], and the technology adopted to classify various topics is critical. This study examines social media data by performing data cleaning, text mining, and content analysis to extract brand and marketing cues [17].

3. Research Hypotheses

3.1. Image Cues

Social media research shows that the public consumes information according to their personal preferences, which significantly impact their brand preferences. Social media allows consumers to share their brand experiences and brands to form a dynamic network with their consumers [52]. A brand′s fan page, for example, provides various interactive services and successfully serves as a communication channel for fans [53]. A brand community has an exclusive information structure [54], and all information represents countless relationships and associations with the brand [55]. Fans′ response to information helps brands identify problems [21] and assess the popularity of a post or certain information [56]. Likes, comments, and shares are equivalent to viral marketing and promote consumer interactions with brands and increase the willingness to purchase and brand loyalty [57].
The information cueing effect discussed in this study is based on possible crowd behaviors and interactions in response to text information shared in the community. To conceptualize information cues, the research transforms vague information cues into definite text concepts, a problem emphasized in numerous image studies evaluating the individual attributes of information to obtain specific factors composing an image [58]. Information cues are commonly defined as potential ideal information in the minds of the public [59] that may be transformed into a specific image or concept [46]. The impact of the information differs by the media used such as the television, Internet, books, or magazines. However, such information may prejudice the public even before they make actual contact with the brand. Exploring community information and analyzing interactive responses to information can help brands improve their recognition and positioning [60]. Therefore, this study uses the information construction characteristics of brands’ fan pages [61] to explore responses to image cues in posts. In addition, it examines if public interactions differ by brands′ page content. Accordingly, the following hypotheses are proposed (Figure 1).
Hypothesis H1:
Image cues in “retail food brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H1a:
Image cues in “retail food brand’s posts” encourage public participation through likes.
Hypothesis H1b:
Image cues in “retail food brand’s posts” encourage public participation through comments.
Hypothesis H1c:
Image cues in “retail food brand’s posts” encourage public participation through shares.
Hypothesis H2:
Image cues in “retail home improvement brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H2a:
Image cues in “retail home improvement brand’s posts” encourage public participation through likes.
Hypothesis H2b:
Image cues in “retail home improvement brand’s posts” encourage public participation through comments.
Hypothesis H2c:
Image cues in “retail home improvement brand’s posts” encourage public participation through shares.
Hypothesis H3:
Image cues in “retail warehouse club brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H3a:
Image cues in “retail warehouse club brand’s posts” encourage public participation through likes.
Hypothesis H3b:
Image cues in “retail warehouse club brand’s posts” encourage public participation through comments.
Hypothesis H3c:
Image cues in “retail warehouse club brand’s posts” encourage public participation through shares.

3.2. Marketing Cues

Studies suggest that the motivations underpinning information searches include satisfaction [62], participation [63], and the gaining of trust [3]. Consumers read information to understand a brand [64], analyze product characteristics [65], and make purchase decisions. The value of brand fan pages depends on whether the information drives fans toward active participation. Fan pages are considered a reliable source of brand information and can be used to gain consumer trust, making it easier to encourage participation and purchases. Trust is a fundamental factor motivating a community [66] to share and exchange opinions. Many brands encourage communities to actively participate in lotteries and competitive marketing activities aimed at increasing brand interactions through rewards [67]. This marketing operation takes the form of a positive cycle supported by information trust with the public earning rewards as they consume more brand information. Referencing the abovementioned behavioral theories, this study posits that marketing cues impact public participation and, accordingly, makes the following assumptions:
Hypothesis H4:
Marketing cues in “retail food brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H4a:
Marketing cues in “retail food brand’s posts” encourage public participation through likes.
Hypothesis H4b:
Marketing cues in “retail food brand’s posts” encourage public participation through comments.
Hypothesis H4c:
Marketing cues in “retail food brand’s posts” encourage public participation through shares.
Hypothesis H5:
Marketing cues in “retail home improvement brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H5a:
Marketing cues in “retail home improvement brand’s posts” encourage public participation through likes.
Hypothesis H5b:
Marketing cues in “retail home improvement brand’s posts” encourage public participation through comments.
Hypothesis H5c:
Marketing cues in “retail home improvement brand’s posts” encourage public participation through shares.
Hypothesis H6:
Marketing cues in “retail warehouse club brand’s posts” encourage public participation through likes, comments, and shares.
Hypothesis H6a:
Marketing cues in “retail warehouse club brand’s posts” encourage public participation through likes.
Hypothesis H6b:
Marketing cues in “retail warehouse club brand’s posts” encourage public participation through comments.
Hypothesis H6c:
Marketing cues in “retail warehouse club brand’s posts” encourage public participation through shares.

4. Research Methodology

4.1. Information Sources and Data Collection

The study combines community information and participation in its research framework. The samples are divided into three categories: retail food brand, retail home improvement brand, and retail warehouse club brand. The research definition is adjusted to consider the validity of information cues. This research draws on brand image and information cue theory [1] to design the theoretical framework and then uses behavior response factors for the theoretical integration. Most studies on online text information use single text software to determine the relationship between high-frequency word and image cues, while few use AI to discuss image cues. Given the wide range of information needs today, this study re-evaluates image cues and a community framework while referring to the abovementioned information-related research. Using content exploration and ensemble learning, it examines key image cues to highlight the various reasons motivating participation by fans. Further, it expands the discussion on image and marketing cues to explore how various social brands induce public participation and the evaluation of information efficiency.
The research is conducted in three stages: sample filtering, social data and data collection, and social information analysis and machine learning for element screening. In the first stage of sample filtering, the analysis uses sample home, food, and retail posts by six retail brands listed among the Fortune Global 500, which ranks the world’s 500 largest companies on the basis of their turnover. In 2018, the threshold for Fortune Global 500 was USD 242 billion. The list is published in the US Fortune magazine and highlights the latest development trends for the world′s largest companies. A comparison of industries across the various years gives us an understanding of company characteristics. Following the sample filtering, this study collects data from Facebook posts while adhering to the platform’s terms of service [24,26]. It uses Facebook’s Graphics API to collect post information [28,29], including post content, type, time, likes, shares, comments, and sentiment during the study period. From 1 January 2011 to 31 December 2019, the studied brands published a total of 25,538 posts, of which 4199 posts were by Home Depot and Lowe’s Home Improvement (home brands), 5948 were by Starbucks and KFC (food and beverage brands), and 15,391 were by Walmart and Costco (retail brands). Next, this study integrates random decision forests, extreme gradient boost, and adaboost for statistical verification.

4.2. Data Analysis and Key Clue Extraction

Machine learning focuses on the construction of data exploration and analysis frameworks [68] and analyzes and predicts features hidden in learning data. By teaching machines how to learn, researchers are no longer required to explicitly program computers to accomplish specific tasks. Machine learning is a highly capable and valuable approach used to discover patterns and correct errors. As large-scale data generally have diverse and rapidly changing characteristics, an accurate prediction model derived from adjusting community information can serve as guide for future content output with a better reference basis [69]. Machine learning can be divided into supervised and unsupervised learning. Unsupervised learning lacks categorical variables, whereas supervised learning has clear target or categorical variables and uses these variables to generate association rules [70]. Further, supervised learning continuously improves the minimum value of frequent calculations [40]. Therefore, this study employs supervised learning to develop a prediction model to determine a function that maps labeled training data from input x to output y and to determine the minimum error function that can be predicted using the model. The key characteristic of the model is the attribute training with a classifier and its importance is determined by weights or coefficients ranging between 0 and 1. The feature scores are ranked in order of importance; the higher the score, the more important the analysis characteristics. This study combines supervised learning algorithms with community content and interactions to classify conforming and non-conforming posts [71]. The final value is based on an F-score. If the measurement does not belong to a specific instance, a recall designation is used to re-classify the content according to its corresponding category.
Ensemble learning is a supervised learning algorithm that can be trained and used to make predictions. The integrated model after training represents a single hypothesis, although this hypothesis is not necessarily included in the hypothesis space of the model. Thus, ensemble learning has greater flexibility in its functions. Significant differences between models generally result in the integration producing better results; therefore, various integration methods attempt to promote diversity between the models they combine. Random forests, for example, are mainly used for regression and classification. Bagging generates a decision tree after each bootstrap is returned to sampling and produces as many trees as the sampling. No further intervention is needed while the trees are being generated. Random forests also apply bootstrap sampling, although the approach differs from bagging. That is, when generating a tree, each node variable in a random forest is generated in a small number of randomly selected variables. Therefore, both the sample and the generation of each node variable (features) are random. The combined classifier has a better classification effect than a single classifier. Random forests distinguish and classify data using multiple classification trees. It produces multiple variables while classifying the data (gene) to evaluate the importance of each variable in the classification. The boosting algorithm is used to synthesize weak classifiers into a strong classifier. Boosting associates weights with entities in the dataset and enhances those that are difficult to accurately model. Once a series of models is constructed, the weights are modified after each model and entities that are difficult to classify are assigned greater weight. Machine learning algorithms are computed using a gradient boosting framework. Extreme gradient boost was adopted to quickly and accurately solve numerous data science problems. The same code can be run on the main distributed environment (i.e., Hadoop, SGE, MPI) to solve innumerable problems. Adaboost is an improved boosting classification algorithm derived by increasing the weight of classification error samples linearly combined by previous classifiers. The approach allows us to focus on training samples that are easy to classify every time a new classifier is trained.

5. Data Analyses and Results

5.1. Reliability and Validity

For reliability and validity analysis of the data, principal component factor analysis was performed to test the factor validity of the scale. The factor characteristic value of retail food brands’ posts had a total variance of 74.88% and a KMO value of 0.671. The factor characteristic value of retail home improvement brands’ posts had a total variance of 64.602% and a KMO value of 0.587. The factor characteristic value of retail brands’ posts had a total variance of 66.624% and a KMO value of 0.668. The expected load factor for all items is >0.5, indicating good convergence and discriminant validity. In addition, the reliability test produced a Cronbach’s alpha of 0.839 for retail food brands’ posts, 0.794 for retail home improvement brand’s posts, and 0.748 for retail brands’ posts. Each of these results shows good reliability.

5.2. Hypotheses Verification

The extreme gradient boost and random decision forests results show that image cues in retail food brands’ posts significantly influenced the prediction of key cues (i.e., likes, comments, and shares). Adaboost, however, reports this impact only for likes and shares (Figure 2). This finding establishes H1a and partially establishes H1b and H1c (Table 1).
The extreme gradient boost shows that image cues in retail home improvement brands’ posts significantly influenced the prediction of key cues for likes, comments, and shares. Random decision forests results report this impact only for likes and shares. This finding partially establishes H2a, H2b, and H2c.
The extreme gradient boost and random decision forests results show that image cues in retail warehouse club brands’ posts significantly influenced the prediction of key cues. Adaboost, however, reports this impact only for likes. This finding establishes H3a and H3c and partially establishes H3b.
For the marketing cues of retail brands’ posts, the ensemble learning results were as follows.
The extreme gradient boost and random decision forests results show that marketing cues in retail food brands’ posts significantly influenced the prediction of key cues for comments. Adaboost, however, reports this impact only for likes, comments, and shares. This finding establishes H4a and partially establishes H4b and H4c.
The extreme gradient boost, adaboost, and random decision forests results show that image cues in retail home improvement brands’ posts and retail warehouse club brands’ posts significantly influenced the prediction of key cues for likes, comments, and shares. This finding partially establishes H5a, H5b, H5c, H6a, H6b, and H6c.

5.3. Data Verification

The study results show that content planning for the fan pages significantly affects public participation. The results of the various verification tests are presented below.
First, the influence of the image cues in retail food brands’ posts on the behavioral involvement of social media users (H1) was verified. The association between the image cues in retail food brands’ posts, the “Likes” (random decision forests: β = 0.091, p < 0.000; extreme gradient boost: β = 0.033, p < 0.000; adaboost: β = 0.060, p < 0.000), the “Comments” (random decision forests: β = 0.075, p < 0.000; extreme gradient boost: β = 0.016, p < 0.034; adaboost: β = 0.003, p < 0.653), and the “Shares” (random decision forests: β = 0.086, p < 0.000; extreme gradient boost: β = 0.024, p < 0.002; adaboost: β = 0.011, p < 0.140) were found to be significant (Table 2).
Second, the influence of the image cues in retail home improvement brands’ posts on the behavioral involvement of social media users (H2) was verified. The association between the image cues in retail home improvement brands’ posts, the “Likes” (random decision forests: β = 0.037, p < 0.000; extreme gradient boost: β = 0.000, p < 0.000; adaboost: β = −0.008, p < 0.341), the “Comments” (random decision forests: β = −0.016, p < 0.079; extreme gradient boost: β = −0.022, p < 0.013; adaboost: β = −0.025, p < 0.004), and the “Shares” (random decision forests: β = 0.059, p < 0.000; extreme gradient boost: β = 0.029, p < 0.001; adaboost: β = 0.009, p < 0.328) were found to be significant.
Third, the influence of the image cues in retail warehouse club brands’ posts on the behavioral involvement of social media users (H3) was verified. The association between the image cues in retail brands’ posts, the “Likes” (random decision forests: β = 0.085, p < 0.000; extreme gradient boost: β = 0.000, p < 0.001; adaboost: β = 0.115, p < 0.000), the “Comments” (random decision forests: β = −0.009, p < 0.046; extreme gradient boost: β = −0.016, p < 0.000; adaboost: β = −0.006, p < 0.175), and the “Shares” (random decision forests: β = 0.064, p < 0.000; extreme gradient boost: β = 0.046, p < 0.000; adaboost: β = 0.135, p < 0.000) were found to be significant.
Fourth, the influence of the marketing cues in retail food brands’ posts on the behavioral involvement of social media users (H4) was verified. The association between the marketing cues in retail food brands’ posts, the “Likes” (random decision forests: β = 0.009, p < 0.226; extreme gradient boost: β = 0.006, p < 0.429; adaboost: β = −0.033, p < 0.000), the “Comments” (random decision forests: β = −0.025, p < 0.001; extreme gradient boost: β = 0.016, p < 0.034; adaboost: β = −0.027, p < 0.000), and the “Shares” (random decision forests: β = −0.012, p < 0.103; extreme gradient boost: β = 0.033, p < 0.000; adaboost: β = −0.016, p < 0.031) were found to be significant (Table 3).
Fifth, the influence of the marketing cues in retail home improvement brands’ posts on the behavioral involvement of social media users (H5) was verified. The association between the marketing cues in retail home improvement brands’ posts, the “Likes” (random decision forests: β = 0.070, p < 0.000; extreme gradient boost: β = 0.121, p < 0.000; adaboost: β = −0.087, p < 0.000), the “Comments” (random decision forests: β = −0.068, p < 0.000; extreme gradient boost: β = −0.052, p < 0.000; adaboost: β = −0.046, p < 0.000), and the “Shares” (random decision forests: β = 0.037, p < 0.000; extreme gradient boost: β = 0.065, p < 0.000; adaboost: β = 0.034, p < 0.000) were found to be significant.
Lastly, the influence of the marketing cues in retail warehouse club brands’ posts on the behavioral involvement of social media users (H6) was verified. The association between the marketing cues in retail brands’ posts, the “Likes” (random decision forests: β = 0.099, p < 0.000; extreme gradient boost: β = 0.091, p < 0.000; adaboost: β = 0.093, p < 0.000), the “Comments” (random decision forests: β = 0.026, p < 0.000; extreme gradient boost: β = 0.024, p < 0.000; adaboost: β = 0.038, p < 0.000), and the “Shares” (random decision forests: β = 0.102, p < 0.000; extreme gradient boost: β = 0.091, p < 0.000; adaboost: β = 0.057, p < 0.000) were found to be significant.

6. Results, Hypothesis Verification, and Discussion

6.1. Results

This section compares the estimation results for the studied brands.
For Costco, fans appear to prioritize practical needs and product-related information (e.g., “recipes”, “items”, and “packages”). In addition to their own needs, they are happy to share the information with friends who like the brand, indicating high interactive value. The use of clear rewards information (e.g., “member”, “today”, “comment”, “FridayFind”, and “chance”) successfully promotes physical products (Table A1, Figure A1, Figure A2 and Figure A3).
In the case of Walmart, the construction of corporate image through the image cues of “ethics”, “best brand”, and “realization” gradually builds a sense of trust and enhances the willingness to share the information. In addition, marketing cues (e.g., “tip”, “here”, “find”, or “http”) increase fans’ attention space and the time spent browsing through information (Table A2, Figure A4, Figure A5 and Figure A6).
For KFC, the analysis results for Starbucks show that, in addition to the promotion of main products, the brand incorporates positive cues (e.g., “holiday” and “happy”) to develop a pleasant and positive image (Table A3, Figure A7, Figure A8 and Figure A9).
For Starbucks, compared with KFC′s marketing cues, those of Starbucks (e.g., “share” and “free”) are more effective in communicating information. Nevertheless, KFC demonstrates precise performance in setting key cues, particularly marketing cues (e.g., “friend”, “now”, “only”, and “free”), and in promoting cheap products to attract the public. Through designed action, the brand encourages participation through likes and comments (Table A4, Figure A10, Figure A11 and Figure A12).
Lowe′s Home Improvement shows similar results to those for Home Depot: “Vine”, “DIY”, “garden”, “paint”, likes, and shares report good interactive performance (Table A5, Figure A13, Figure A14 and Figure A15).
Finally, Home Depot can enhance its brand image while strengthening its information characteristics by encouraging interactions with its products (e.g., “workshop”, “DIY”, and “Vine”). However, providing brand cues (e.g., “workshop”, “depot”, and “retail”) that are less relevant to physical needs will deter the public from participating (Table A6, Figure A16, Figure A17 and Figure A18).
In sum, this study measures users′ response behaviors to information [72], evaluates the focus of user interactions with brand community information, and analyzes if such information is in line with user needs [73]. The results identify behavioral tension among community posts on fan pages. The analysis also confirms that user preferences for image- and information-based posts tend to differ and these differences influence participation levels [74]. This finding not only contributes to the literature on social media content, but also reiterates the importance of community content planning for brands. A further analysis of brand cue reveals a majority of information is utilized and adjusted according to brand positioning and content needs rather than repeatedly promoted to better fit the definition of diverse information.
The recent years have witnessed a growing amount of social media research [75] on community needs [76] and the benefits of brands’ social communication. These two topics have received particular academic attention [77] given the critical role of communities in enhancing public dialogue [78]. Social media positioning and needs tend to differ by brand [79,80]. Nevertheless, numerous studies have confirmed that social media effectively generates secure communication and interactions between brands and the public and strengthens the impact of relationship marketing [81,82]. With increasing importance being assigned to public participation, researchers are paying more attention to brand interactions with communities and exploring ways to successfully communicate brand information to increase brand loyalty [83].

6.2. Hypothesis Verification

This study verifies the importance of consistent image and information positioning. Images can be used to reflect the impact of information on users [84]. Information in line with a brand’s image is easier to recall than misaligned information, a finding supported by past research on advertising information and memory recall [85]. Information organization theory and information processing research have repeatedly demonstrated the relationship between consistent information and imagery and higher memory recall. In addition, clearer and more explicit content contributes to long-term brand memory and achieving a successful brand link [86]. The result for marketing cues shows that different marketing plans, such as promoting high-quality attributes of a product, strengthen brand identity [87] and that marketing activities induce certain user behaviors. Image cues also symbolize important judgments in brand emotions [88]. Emotional identification with brands can be used to determine if a crowd positively or negatively perceives a brand and critically influences subjective impression.

6.3. Discussion

This study contributes a model that classifies brand community posts and mines related data to predict public needs and preferences. More specifically, it proposes a framework with supervised and ensemble learning to classify information and predict users′ behavioral characteristics. A social network analysis is conducted on brand fan pages and a crowd-based model with an F-score is used to predict and cross-validate the relationship between post information and user behavior. The research employs a big data analysis with AI machine learning to review the information characteristics of brand communities and provides model tools for complete data collection, analysis, and operation. The model is premised on user needs that often differ in learnings and emotions over time. To address the potential for unexpected results, the model uses big data to access information that is not easily available and perform high-speed calculations, thus reducing the time and financial burden. Nevertheless, new decision-making and management methods are needed to promote the development of a data economy. Given the continuous flow of data, digital smoke signals can be used as an early warning system, although they are unable to confirm actual situations. Therefore, the contribution of this research lies in its construction of a predictive model, which can be used as a reference tool to determine decisions and actions on the basis of early warning signals, identify problems and related solutions, and enhance brand community management.

6.4. Conluclusions and Limitations

This study is not free from limitations and, accordingly, offers suggestions for future research. First, accounting for the restrictions of the Facebook API, the collected data are limited to specific time periods and may be subject to and dominated by hot topics. To improve the stability of the results, cross-comparisons are needed over an extended period to verify the general value of the model. Second, the sample focuses on well-known brands and a majority of the content is published in English. While the English language is predominantly used on social media around the world, future research should consider other languages to conduct a comparative analysis.
In addition, the researcher provides two suggestions for information management. Social media experiences tend to increase public acceptance or rejection of information, and users’ interactive behaviors are expected to reflect their satisfaction levels (Jiang et al., 2010). Therefore, information rich in marketing elements is more likely to trigger positive comments and even stimulate potential revisits [89]. Links, messages, and sharing also critically stimulate user behaviors [90]. Image cues enhance public dialogue, which in turn stimulate good brand communication [91,92]. Users actively express emotions or relay information through interactions [93], a notion in line with community exchange theory. In addition to generating social interactions, community information promotes self-expression and support and contributes toward strong emotional interactions [94] and a safe environment [93]. Given today′s dynamic market conditions, consumer expectations exceed brand positioning. Individuals develop trust in a brand by evaluating its actions rather than claimed appeals. Thus, the loss of consumer confidence detrimentally impacts brands whose business models are built on trust. In other words, the existence of a brand largely depends on its consumers. Impressions of and attitudes toward a brand differ by corporate attitudes. One such attitude is cultivating fan culture by returning brands to consumers. It is important for brands to remain open and transparent and use online platforms and communities to encourage consumer participation and sharing.

Funding

This study was funded by the Ministry of Science and Technology, Digital Humanities Program (MOST 110-2410-H-032-051).

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A. Measurement and Items

Table A1. Brand cues (Costco).
Table A1. Brand cues (Costco).
Brand CuesLikesBrand CuesCommentsBrand CuesShares
recipe102.09http53.74recipe122.38
http39.47Costco26.97http30.04
Costco31.18member23.44Costco33.43
love22.72love26.54warehouse19.8
day17.36day16.48love26.46
available9.99feature8.85available16.13
new20.21recipe20.09day18.24
warehouse6.72favorite28.85now17.83
item14.22Kirkland27.46book16.98
Kirkland25.11item16.14receive21.91
book13.34comment13.88item17.17
member17.59pick4.37year17.34
month−3.42available10.74new16.84
Signature21.5warehouse13.01last13
FridayFind12.93month−5.62offer15.88
feature0.67chance3.04Kirkland17.02
CostcoConnection20.88today10.39Facebook12.21
year13book11.16today12.82
last14.14select8.04package13.52
pick6.01new17.77pick16.95
today8.23year18.94save10.19
local3.35Facebook11.98local5.31
value13.84tip16.12select11.28
select8.73value19.63Signature14.84
package12.3Signature21.28favorite12.59
card6.21time14.59time12.27
time15.76now15.53Available9.87
save8.07last14.19Sunday8.69
now9.37live11.59live12.74
Facebook9.42local7.09help15.16
offer13.95receive12.76CostcoConnection 13.82
chance−1.42holiday9.53member18.71
find16.41package8.69holiday8.27
receive12.35find15.66feature9.17
live10.77photo7.98tip11.63
vacation9.44card8.41comment5.92
gift8.1cover6.7FridayFind8.66
favorite9.58home5.33home7.09
Sunday6.74save0.06photo5.31
cover0.64CostcoConnection 7.22month7.61
Available3.7learn6.35chance−0.45
help13.47offer7.07gift8.39
tip11.1FridayFind15.17card5.44
home9.27Sunday6.78vacation9.44
holiday9.48vacation6.49find9.68
photo−3.73help10.4cover17.14
comment8.76start6.44value8.82
learn6.26Available5.11start2.72
start6.15gift7.88learn5.61
Table A2. Brand cues (Walmart).
Table A2. Brand cues (Walmart).
Brand CuesLikesBrand CuesCommentsBrand CuesShares
Tuesday37.34Tuesday30.74here44.96
http52.42recommendation26.55http30.99
tienda48.67SIEMPRE29.29SIEMPRE24.87
fruit43.19http37.96recipe27.95
mejor24.86mejor13.33tip9.2
encuentra14.65encuentra2.63mejor9.44
SIEMPRE22.65brand13.38tienda24.55
walmart19.36fruit35.65recommendation4.2
here30.07precio16.19Tuesday8.1
availability17.84tip−2.8style5.12
recommendation16.22producto22.23come9.91
precio23.57tienda17.47sale13.24
lifetime−2.05walmart15.93encuentra−7.21
producto20.97lifetime7.46find14.98
brand16.78cat25.12availability18.2
shape19.43prepare.1−0.46lifetime5.25
recipe29.78availability 2.84prepare11.9
style−14.79baby13.16prepare.111.06
tip9.74prepare−0.8subject7.63
subject−0.44color−4.2ethics7.68
prepare6.45style−5.4baby13.11
sale16.27come6.19realization15.82
prepare5.05query17.26responsabilidad14.85
come10.93great−5.73ingredient15.76
ethics13.21subject5.79walmart5.8
responsabilidad 18.23here20.61shape−2.03
realization14.43recipe14.91precio1.43
great−1.63purchase1.63producto21.01
cat13.81responsabilidad13.41family1.37
months1.05without5.03months−1.38
ingredient20.84months−7.16House11.54
find9.57ethics16.33great0.82
variety10.09fresh−4.53fruit2.52
without14.64shape11.48Go.ahead−1.73
Favourite8.38realization13.78purchase7.78
family5.2Go.ahead2.35brand18.06
Go.ahead2.64family2.71fresh6.28
discover6.1variety7.94without5.33
interests14.28sale8.66interests9.27
fresh11.29ingredient2.94variety1.44
House9.05House5.75Favourite6.33
baby5.2discover−1.11color−2.77
purchase12.86find2.83Health4.82
Water−1.74interests6.98cat2.45
Health0.53Favourite12.77discover2.68
query1.93Health−2.23query−0.53
kitchen−0.65Water2.61Water0.29
color−0.51kitchen5.17kitchen−5.1
Table A3. Brand cues (KFC).
Table A3. Brand cues (KFC).
Brand CuesLikesBrand CuesCommentsBrand CuesShares
only22.21only19.48only9.54
dip24.86chicken 18.16online−26.13
order−5.59http21.71yummy0.81
chicken16.63want17.24http16.94
win12.38friend1.84order−12.1
http10.77code−18.84chicken4.72
offer−0.97KFC1.95friend−4.19
friend6.78online−16.01KFC−6.4
online−9.33order−9.49offer−6.29
day13.77dip17.79enjoy−7.34
today5.28yummy−2.72dip5.42
want10.17day9.48free−11.35
enjoy7.71win8.11want8.98
meal6.65right−0.92win10.47
yummy−2.04enjoy7.21meal4.75
KFC−0.01hot1.69Zinger−1.75
free7.21offer−5.24hot−1.47
treat−4.74free−9.1Use−1.9
here4.27now−5.95code−5.38
code−3.24start14.14click−6.71
hot1.96good7.03now−6.78
new9.08today5.8right−0.05
good0.78coupon7.61new10.89
Use10.19click−6.15day−1.8
Zinger3.7Use−2.2good3.13
now−2.68new3.01time2.22
right1.7time5.74coupon6.36
time2.05first−3treat−5.7
coupon6.37Zinger2.45bucket0.95
share6.19treat−3.84today3.36
call−0.28share−0.34start12.1
like2.03come0.18here−2.8
click1.87call−0.58like−0.77
bucket7.36here1.04come1.07
come1.28photo10.69call−4.33
hunger−4.11bucket−0.89photo9.59
photo8.45meal−0.36first−6.88
start8.17love−5.53share−0.74
first−4.95hunger0.11love0.62
love−2.84like−3.08hunger−6.6
Table A4. Brand cues (Starbucks).
Table A4. Brand cues (Starbucks).
Brand CuesLikesBrand CuesCommentsBrand CuesShares
caramel9.52caramel13.13caramel22.51
Iced25.24Frappuccino 12.66Frappuccino 9.47
share10.02Starbucks12.46Starbucks11.17
Starbucks14.45Iced8.8free2.46
sweet9.53holiday10.84any13.98
http16.95friend0.05share6.93
here1.3here−1.28cold6.29
pumpkin2.33share9.78all12.01
cup5.14any7.47holiday11.48
any8.21like3.58drink1.9
drink1.9cold1.44here−0.32
year7.69time1.39espresso0.75
Frappuccino3.43come3.07like2.68
coffee1.35free9.76http4.01
friend1.74drink1.41friend0.35
help8.48espresso−0.77thank5.19
all1.82sweet4.39today6.5
cold1.33today3.38join−0.78
today5.37http6.44sweet4.22
espresso−1.08help5.7new6.91
brew−2.14new5.78come1.97
time−2.13community0.41happy−0.4
new0coffee−2.36store0.51
like−3.73now3.9time−5.16
happy−3.5year−0.24help0.66
only−2.12brew−1.89love−0.94
holiday3.46happy−3.74coffee−1.1
thank0.6store4.58year0.88
buy−2.15buy0.37buy−6.63
join−1.59pumpkin−1.84pumpkin−2.78
come−1.82join−4.04only−0.04
love−4.53love−2.66brew−4.07
free0.35good−4.29Iced−1.65
store3.09all3.08now1.17
now−2.46only−1.88day−2.76
day−1.45cup−2.23good−4.6
tea0.31thank2.28cup3.19
good−6.35day−4.3community−3.91
community−1.86tea−3.69tea−3.5
Table A5. Brand cues (Lowe’s Home).
Table A5. Brand cues (Lowe’s Home).
Brand cuesLikesBrand CuesCommentsBrand CuesShares
look18.3today0.69Vine54.36
fall9.1http8.93http22.08
detail9.54low4.33DIY16.62
low16.69paint−0.56store7.72
idea5.21project0.68help5.15
keep6.96Vine4.89like1.13
build8.61store−1.13garden9.65
paint0.66love8.16now0.74
color3.42look13.51look12.32
love9detail9.47detail14.49
like−3.22now−0.24keep4.26
kitchen5.26here2.62kitchen4.7
save−0.38keep10.16save7.81
today−3.78color−0.91light4.8
now−1.88create−3.16give−0.03
DIY11.72garden−2.18fall10.31
project2.96spring5.58tip−0.94
here5.39time2.86start2.72
http3.05idea−1.78love9
just5.3just−4.65create−0.87
perfect1.47design0.88just4.25
Vine−1.92need1.51low6.29
store−8.06home−2.81project−0.34
create−5.33great−1.04idea3.47
garden−0.53tip−4.19paint1.22
start−4.05light−2.77bathroom3.46
spring−3.5save−5.47time−3.7
tip−1.61build1.59build5.83
bathroom 8.02perfect−3.49home0
time−3.85give−2.17great−4
design0.28help2.96design 2.01
give−3.14kitchen−2.19today0.17
year−1.56like−4.83perfect 3.28
great−0.68fall−0.62color −0.05
home−1.29new−5.29here 3.41
help−1.86DIY2.66year −0.34
light−7.12family−1.27need0.73
new−3.2start−4.22new−3.69
shop−2.08shop−2.93family 0.19
family−4.28year1.39spring −4.46
need−2.25bathroom 4.38shop0.3
Table A6. Brand cues (Home Depot).
Table A6. Brand cues (Home Depot).
Brand CuesLikesBrand CuesCommentsBrand CuesShares
http0.21http31.11workshop29.58
full−8.66room10.67DIY5.66
home0.32free12.26light16.26
garden9.22space−3.83http8.5
post3.83depot9.46full−3.6
now0.35now13.97post6.4
know−2.97season−7.58garden7.25
spring−0.58post−3.29season4.71
space−7.09home−4.22need−0.46
depot2.83style−7.8free9.9
start−2.61full−6know−0.71
today−2.05here7.88here4.73
year4.01know5.31build12.73
light4.02help2.49space−5.84
need−7.34garden5.63depot2.36
DIY−0.71look−0.24home5.71
project−3.03Christmas2.02tip1.21
patio7.87photo−4.33today2.39
season−5.68tip6.12project0.61
tip0.57store3.38patio0.72
here1.05DIY4.68photo−0.35
holiday−2.89paint4.98outdoor0.54
store−4.1build12.78create−4.46
bathroom−4.84tool4.55SpringMadeSimple 0.06
room−5.58patio5.43time 3.95
SpringMadeSimple5.72today2.15start −2.69
help0.73create2.5holiday 4.16
create−1.87new−5.2now−3.29
Christmas−1.54decor−6.21Christmas0.66
gift2.69year−1.51year−1.69
workshop1.09spring−5.26spring−4.83
paint−0.66time−1.97new3.35
learn−2.38project3.61learn−3.43
look−3.65need−2.15store−4.11
tool0.26start1.43gift 1.74
build−0.8gift−0.15decor−3.99
photo−2.44bathroom−7.11tool −2.1
decor−3.05outdoor−6help −0.82
new−6.55light−3.99look0.13
time−5.95SpringMadeSimple 4.49room3.48
outdoor0.65workshop9.64style0.4
free−1.97holiday−5.11paint6.44
style−2.77learn0.9bathroom1.23
Figure A1. Cues of Costco (Likes).
Figure A1. Cues of Costco (Likes).
Information 12 00526 g0a1
Figure A2. Cues of Costco (Comments).
Figure A2. Cues of Costco (Comments).
Information 12 00526 g0a2
Figure A3. Cues of Costco (Shares).
Figure A3. Cues of Costco (Shares).
Information 12 00526 g0a3
Figure A4. Cues of Walmart (Likes).
Figure A4. Cues of Walmart (Likes).
Information 12 00526 g0a4
Figure A5. Cues of Walmart (Comments).
Figure A5. Cues of Walmart (Comments).
Information 12 00526 g0a5
Figure A6. Cues of Walmart (Shares).
Figure A6. Cues of Walmart (Shares).
Information 12 00526 g0a6
Figure A7. Cues of KFC (Likes).
Figure A7. Cues of KFC (Likes).
Information 12 00526 g0a7
Figure A8. Cues of KFC (Comments).
Figure A8. Cues of KFC (Comments).
Information 12 00526 g0a8
Figure A9. Cues of KFC (Shares).
Figure A9. Cues of KFC (Shares).
Information 12 00526 g0a9
Figure A10. Cues of Starbucks (Likes).
Figure A10. Cues of Starbucks (Likes).
Information 12 00526 g0a10
Figure A11. Cues of Starbucks (Comments).
Figure A11. Cues of Starbucks (Comments).
Information 12 00526 g0a11
Figure A12. Cues of Starbucks (Shares).
Figure A12. Cues of Starbucks (Shares).
Information 12 00526 g0a12
Figure A13. Cues of Lowe’s Home (Likes).
Figure A13. Cues of Lowe’s Home (Likes).
Information 12 00526 g0a13
Figure A14. Cues of Lowe’s Home (Comments).
Figure A14. Cues of Lowe’s Home (Comments).
Information 12 00526 g0a14
Figure A15. Cues of Lowe’s Home (Shares).
Figure A15. Cues of Lowe’s Home (Shares).
Information 12 00526 g0a15
Figure A16. Cues of Home Depot (Likes).
Figure A16. Cues of Home Depot (Likes).
Information 12 00526 g0a16
Figure A17. Cues of Home Depot (Comments).
Figure A17. Cues of Home Depot (Comments).
Information 12 00526 g0a17
Figure A18. Cues of Home Depot (Shares).
Figure A18. Cues of Home Depot (Shares).
Information 12 00526 g0a18

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Figure 1. Extended research model.
Figure 1. Extended research model.
Information 12 00526 g001
Figure 2. Model results. RF: random decision forests, GB: extreme gradient boost, AD: adaboost.
Figure 2. Model results. RF: random decision forests, GB: extreme gradient boost, AD: adaboost.
Information 12 00526 g002
Table 1. Summary of hypotheses.
Table 1. Summary of hypotheses.
IDHypothesisVerdict
H1.Image cues in HI the retail food brands’ posts encourage public participation through likes, comments, and shares
H1a.Image cues in the retail food brands’ posts encourage public participation through likes.Established
H1b. Image cues in the retail food brands’ posts encourage public participation through comments.Partially established
H1c.Image cues in the retail food brands’ posts encourage public participation through shares.Partially established
H2.Image cues in H2 retail home improvement brands’ posts encourage public participation through likes, comments, and shares.
H2a. Image cues in retail home improvement brands’ posts encourage public participation through likes.Partially established
H2b.Image cues in retail home improvement brands’ posts encourage public participation through comments.Partially established
H2c. Image cues in retail home improvement brands’ posts encourage public participation through shares.Partially established
H3.Image cues in H3 retail warehouse club brands’ posts encourage public participation through likes, comments, and shares.
H3a.Image cues in retail warehouse club brands’ posts encourage public participation through likes. Established
H3b.Image cues in retail warehouse club brands’ posts encourage public participation through comments. Partially established
H3c.Image cues in retail warehouse club brands’ posts encourage public participation through shares. Established
H4.Marketing cues in H4 retail food brands’ posts encourage public participation through likes, comments, and shares.
H4a.Marketing cues in retail food brands’ posts encourage public participation through likes.Partially established
H4b.Marketing cues in retail food brands’ posts encourage public participation through comments.Established
H4c.Marketing cues in retail food brands’ posts encourage public participation through shares.Partially established
H5.Marketing cues in H5 retail home improvement brands’ posts encourage public participation through likes, comments, and shares.
H5a.Marketing cues in retail home improvement brands’ posts encourage public participation through likes. Partially established
H5b.Marketing cues in retail home improvement brands’ posts encourage public participation through comments. Partially established
H5c.Marketing cues in retail home improvement brands’ posts encourage public participation through shares.Partially established
H6.Marketing cues in H6 retail warehouse club brands’ posts encourage public participation through likes, comments, and shares.
H6a.Marketing cues in retail warehouse club brands’ posts encourage public participation through likes.Partially established
H6b.Marketing cues in retail warehouse club brands’ posts encourage public participation through comments.Partially established
H6c.Marketing cues in retail warehouse club brands’ posts encourage public participation through shares.Partially established
Table 2. Linear regression coefficient of determination and beta (image cues).
Table 2. Linear regression coefficient of determination and beta (image cues).
Image CuesBSEBetaTSig.R2∆FF ChangeDurbin–Watson
Retail Food Brands’ Posts
H1a LikesRF6509.994532.2340.09112.2310.0000.008149.6080.0001.204
GB1784.118404.6690.0334.4090.0000.00119.4380.0001.193
AD5739.455711.0840.0608.0710.0000.00465.1480.0001.198
H1b CommentsRF325.76832.3620.07510.0660.0000.006101.3300.0001.529
GB52.04324.5830.0162.1170.0340.0004.4820.0341.519
AD19.45943.2580.0030.4500.6530.0000.2020.6531.521
H1c SharesRF538.37246.8970.08611.4800.0000.007131.7860.0001.576
GB112.67835.6490.0243.1610.0020.0019.9900.0021.568
AD92.57862.7360.0111.4760.1400.0002.1780.1401.571
Retail Home Improvement Brands’ Posts
H2a LikesRF404.01897.1320.0374.1590.0000.00117.3010.0001.586
GB377.11095.5250.0353.9480.0000.00115.5850.0001.587
AD−95.474100.168−0.008−0.9530.3410.0000.9080.3411.589
H2b CommentsRF−15.4028.766−0.016−1.7570.0790.0003.0870.0791.691
GB−21.4598.619−0.022−2.4900.0130.0006.1980.0131.691
AD−25.7879.032−0.025−2.8550.0040.0018.1510.0041.691
H2c SharesRF145.27122.0170.0596.5980.0000.00343.5350.0001.709
GB69.84621.6800.0293.2220.0010.00110.3790.0011.711
AD22.25122.7290.0090.9790.3280.0000.9580.3281.710
Retail Warehouse Club Brands’ Posts
H3a LikesRF185.61610.1370.08518.3100.0000.007335.2700.0001.784
GB133.19011.5970.05311.4850.0000.003131.8940.0001.778
AD173.2236.9800.11524.8150.0000.013615.8070.0001.794
H3b CommentsRF−1.4050.703−0.009−1.9980.0460.0003.9920.0461.851
GB−2.7950.802−0.016−3.4840.0000.00012.1360.0001.851
AD−0.6590.486−0.006−1.3570.1750.0001.8420.1751.852
H3c SharesRF31.2352.2690.06413.7660.0000.004189.5020.0001.925
GB25.5982.5930.0469.8730.0000.00297.4780.0001.923
AD45.6671.5560.13529.3500.0000.018861.4520.0001.928
Table 3. Linear regression coefficient of determination and beta (marketing cues).
Table 3. Linear regression coefficient of determination and beta (marketing cues).
Marketing CuesBSEBetaTSig.R2∆FF ChangeDurbin–Watson
Retail Food Brands’ Posts
H4a LikesRF626.394517.0730.0091.2110.2260.0001.4680.2261.194
GB488.883618.4520.0060.7900.4290.0000.6250.4291.195
AD−2391.978550.624−0.033−4.3440.0000.00118.8710.0001.196
H4b CommentsRF−103.01831.390−0.025−3.2820.0010.00110.7710.0011.523
GB79.51237.5500.0162.1170.0340.0004.4840.0341.520
AD−119.13733.441−0.027−3.5630.0000.00112.6920.0001.523
H4c SharesRF−74.28145.537−0.012−1.6310.1030.0002.6610.1031.573
GB237.95954.4390.0334.3710.0000.00119.1070.0001.570
AD−104.90348.513−0.016−2.1620.0310.0004.6760.0311.572
Retail Home Improvement Brands’ Posts
H5a LikesRF544.87869.5760.0707.8310.0000.00561.3320.0001.600
GB721.04652.7110.12113.6790.0000.015187.1220.0001.623
AD819.50483.5420.0879.8100.0000.00896.2260.0001.610
H5b CommentsRF−48.0466.276−0.068−7.6550.0000.00558.6020.0001.694
GB−28.1104.783−0.052−5.8770.0000.00334.5400.0001.690
AD−39.1897.556−0.046−5.1870.0000.00226.9000.0001.689
H5c SharesRF64.84915.8150.0374.1000.0000.00116.8140.0001.715
GB87.34712.0240.0657.2650.0000.00452.7730.0001.723
AD72.65619.0170.0343.8200.0000.00114.5960.0001.717
Retail Warehouse Club Brands’ Posts
H6a LikesRF315.49814.7120.09921.4450.0000.010459.8760.0001.793
GB283.90714.4200.09119.6890.0000.008387.6440.0001.793
AD426.93821.3490.09319.9980.0000.009399.9090.0001.786
H6b CommentsRF5.7101.0210.0265.5910.0000.00131.2620.0001.854
GB5.1071.0000.0245.1050.0000.00126.0650.0001.854
AD12.0071.4810.0388.1100.0000.00165.7640.0001.852
H6c SharesRF72.2193.2870.10221.9710.0000.010482.7050.0001.937
GB63.2163.2230.09119.6160.0000.008384.7980.0001.936
AD58.6634.7840.05712.2620.0000.003150.3640.0001.923
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